A system and method for providing security to a token, including: a digital security system generating a unique token identification code for each token to be locked; the digital security system storing in a security system database each token identification code; for a token being purchased, a point-of-sale system obtaining the unique token identification code from the token being purchased; the point-of-sale system sending the unique token identification code obtained from the token being purchased to the digital security system for activation of the token being purchased; the digital security system receiving the unique token identification code sent from the point-of-sale system and comparing the received unique token identification code with token identification codes in the security system database to authenticate the unique token identification code; and the digital security system activating the unique token identification code.
Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. A process for providing security to a locked token, the process comprising: a digital security system for: generating a unique token identification code for each locked token; and storing in a security system database each token identification code; for a locked token being purchased, a point-of-sale system obtaining the unique token identification code from the locked token being purchased; the point-of-sale system sending the unique token identification code obtained from the locked token being purchased to the digital security system for activation of the locked token being purchased; and the digital security system for: receiving the unique token identification code sent from the point-of-sale system; comparing the received unique token identification code with token identification codes in the security system database to authenticate the unique token identification code; and activating the unique token identification code, wherein a consumer upon purchasing the locked token receives an unique activation code corresponding to the locked token, enters the unique activation code, which is hashed by a hash function embedded in the locked product to create a verification hash string, and wherein the verification hash string is compared to an activation hash string and if the verification hash string matches the activation hash string, the locked token is unlocked.
Digital security for physical products protected by locked tokens. The problem addressed is ensuring secure activation and unlocking of these tokens upon purchase. The invention involves a digital security system that generates a unique identification code for each locked token and stores these codes in a database. When a customer purchases a locked token, a point-of-sale system acquires the token's unique identification code. This code is then transmitted to the digital security system for activation. The digital security system verifies the received code against its database. Upon successful authentication, it activates the code. Subsequently, the consumer receives a unique activation code corresponding to the purchased token. This activation code is entered and processed by a hash function embedded within the locked product, generating a verification hash string. This verification hash string is then compared to a pre-existing activation hash string. If these hash strings match, the locked token is unlocked, granting the consumer access to the product.
2. The process of claim 1 , wherein the unique token identification code for a given locked token to be secured comprises a numeric, alphanumeric, or ASCII string that uniquely identifies its corresponding locked token.
This invention relates to a system for securing digital tokens, particularly focusing on generating and managing unique identification codes for locked tokens. The process involves creating a unique token identification code for each locked token, where the code can be a numeric, alphanumeric, or ASCII string that distinctly identifies the corresponding locked token. This ensures that each token can be uniquely tracked and authenticated within the system. The identification code is generated in a way that prevents duplication, ensuring no two locked tokens share the same code. This system is useful in environments where secure and verifiable token management is required, such as blockchain applications, digital asset tracking, or secure authentication systems. The unique identification code allows for precise identification and retrieval of the locked token, enhancing security and reducing the risk of fraud or unauthorized access. The process may also include additional steps such as generating the locked token, storing the identification code, and associating it with the token in a secure database or ledger. This ensures that the token and its identification code remain linked throughout its lifecycle, maintaining integrity and traceability.
3. The process of claim 1 , wherein the unique token identification code for a given locked token is inscribed upon or otherwise affixed to its corresponding locked token in a machine-readable form.
This invention relates to a system for managing and tracking locked tokens, such as those used in secure authentication or access control systems. The problem addressed is the need for a reliable method to uniquely identify and verify the authenticity of locked tokens, ensuring secure and tamper-proof tracking. The process involves generating a unique token identification code for each locked token. This code is then inscribed or affixed to the token in a machine-readable form, such as a barcode, QR code, or other encoded format. The machine-readable form allows automated systems to quickly and accurately read the identification code, facilitating verification and tracking. This ensures that each token can be uniquely identified and authenticated, reducing the risk of counterfeiting or unauthorized use. The system may also include additional security measures, such as encryption or digital signatures, to further protect the integrity of the identification process. The machine-readable format enables seamless integration with existing authentication and access control systems, enhancing security and operational efficiency.
4. The process of claim 1 , wherein the point-of-sale system validates payment for the procured locked token before sending the unique token identification scan code corresponding to that locked token to the digital security system for activation.
A digital security system for managing token-based transactions involves a process where a point-of-sale (POS) system interacts with a digital security system to activate a locked token. The process begins with a user procuring a locked token, which is a digital or physical asset secured by a unique identification scan code. The POS system validates the payment for the procured locked token before transmitting the unique token identification scan code to the digital security system. The digital security system then activates the locked token based on the received scan code, enabling its use. This ensures that only paid-for tokens are activated, preventing unauthorized access or use. The system may include additional steps such as generating the scan code, storing token data, and verifying payment status before activation. The process ensures secure and authenticated token activation, reducing fraud and ensuring proper transaction handling. The invention is applicable in digital asset management, financial transactions, and access control systems where secure token activation is required.
5. The process of claim 1 , further comprising the digital security system verifying that the locked token corresponding to the received unique token identification code has not been previously activated prior to activating that locked token.
A digital security system is used to manage and activate tokens, such as hardware security tokens or digital certificates, to ensure secure access to systems or services. The system assigns unique identification codes to tokens, which are initially in a locked state and must be activated before use. A challenge arises when unauthorized or duplicate activations occur, leading to security vulnerabilities. To address this, the system verifies that a locked token, identified by a received unique token identification code, has not been previously activated before allowing activation. This prevents unauthorized or repeated activations, ensuring that each token is used only once or as intended. The verification step involves checking activation records or a database to confirm the token's status. Once verified, the system activates the token, enabling its use for secure authentication or access control. This process enhances security by ensuring tokens are properly managed and activated only when authorized.
6. The process of claim 1 , further comprising the digital security system sending an activation message to the point-of-sale terminal to confirm that the locked token being purchased has been activated.
A digital security system for managing token-based transactions at point-of-sale terminals addresses the need for secure and verifiable activation of digital tokens during purchase. The system includes a point-of-sale terminal configured to receive a request to purchase a locked token, where the token is initially in an inactive state. The system also includes a digital security system that verifies the purchase request and generates an activation message to transition the token from its locked state to an active state. This activation message is sent to the point-of-sale terminal to confirm that the purchased token has been successfully activated, ensuring that the token is ready for use by the purchaser. The process involves secure communication between the digital security system and the point-of-sale terminal to prevent unauthorized activation or tampering. This method enhances transaction security by ensuring that only validly purchased tokens are activated, reducing the risk of fraud or misuse. The system is particularly useful in environments where digital tokens, such as cryptocurrencies, digital certificates, or access credentials, are sold and activated at the point of sale.
7. The process of claim 1 , further comprising the digital security system sending a message to the point-of-sale terminal indicating that the locked token being purchased has been declined.
A digital security system monitors transactions involving locked tokens, such as digital assets or payment instruments, to prevent unauthorized use. The system verifies the status of a locked token before a transaction is approved. If the token is locked, the system declines the transaction and sends a message to the point-of-sale terminal indicating that the locked token has been declined. This prevents fraudulent or unauthorized purchases of locked tokens. The system may also track transaction history, validate user credentials, and enforce security policies to ensure only authorized transactions proceed. The process ensures that locked tokens remain inaccessible until properly unlocked, enhancing security in digital transactions. The system may integrate with payment networks, financial institutions, or blockchain networks to enforce these security measures. The message sent to the point-of-sale terminal provides immediate feedback to the user and merchant, ensuring transparency in the transaction process. This mechanism helps prevent financial losses and maintains trust in digital payment systems.
8. The process of claim 1 , wherein the unique token identification code for a given locked token is inscribed upon or otherwise affixed to its corresponding locked token in a human-readable form.
This invention relates to a system for managing and tracking locked tokens, such as those used in secure authentication or access control systems. The problem addressed is the need for a reliable method to uniquely identify and verify locked tokens, ensuring their authenticity and preventing unauthorized use. The solution involves generating a unique token identification code for each locked token and inscribing or affixing this code in a human-readable form directly onto the token. This allows users or administrators to visually confirm the token's identity, reducing the risk of counterfeiting or tampering. The process includes generating the unique code, associating it with the token, and physically marking the token with the code. The human-readable format ensures that the code can be easily read and verified by individuals without requiring specialized equipment. This method enhances security by providing a visible means of authentication, complementing any digital or electronic verification mechanisms. The invention is particularly useful in environments where physical tokens are used for access control, financial transactions, or identity verification, where visual confirmation of authenticity is critical.
9. The process of claim 8 , wherein the unique token identification code is read by an operator at the point-of-sale and manually entered into the point-of-sale system so that it can be transmitted to the digital security system to activate the corresponding locked token.
This invention relates to a digital security system for activating locked tokens, such as digital gift cards or prepaid accounts, at the point-of-sale. The problem addressed is ensuring secure and authenticated activation of these tokens to prevent fraud or unauthorized use. The system involves generating a unique token identification code for each locked token, which is then read by an operator at the point-of-sale. The operator manually enters this code into the point-of-sale system, which transmits it to the digital security system. Upon receiving the code, the digital security system verifies its authenticity and activates the corresponding locked token, enabling its use. This manual entry process ensures that only authorized personnel can activate the tokens, reducing the risk of unauthorized access or fraudulent activations. The system may also include additional security measures, such as encryption or multi-factor authentication, to further protect the activation process. The invention is particularly useful in retail environments where secure activation of digital tokens is required.
10. The process of claim 1 , further comprising creating a unique product identification code for each locked token to be secured, wherein the unique product identification code for its corresponding locked token comprises the unique token identification code for that corresponding locked token.
This invention relates to a system for securing digital tokens, particularly in scenarios where tokens are locked or restricted from certain operations. The problem addressed is the need to uniquely identify and manage locked tokens in a secure and verifiable manner, ensuring traceability and preventing unauthorized use or duplication. The process involves generating a unique product identification code for each locked token. This code is distinct for each token and includes a unique token identification code specific to that token. The unique token identification code serves as a core identifier within the product identification code, ensuring that each locked token can be distinctly recognized within the system. This approach enhances security by preventing unauthorized access or manipulation of the tokens, as the unique codes provide a verifiable link between the token and its locked state. The system may also include mechanisms for generating, storing, and validating these codes to ensure integrity throughout the token's lifecycle. This method is particularly useful in applications where token security and traceability are critical, such as in financial transactions, digital asset management, or access control systems.
11. The process of claim 10 , wherein the unique product identification code comprises information in addition to the unique token identification code for that corresponding locked token.
A system and method for securely managing and tracking physical tokens using unique identification codes. The technology addresses the challenge of securely associating physical tokens with specific products or assets while preventing unauthorized duplication or tampering. Each token is locked to a specific product or asset using a unique token identification code, which is embedded or affixed to the token. The token identification code is used to verify the authenticity and ownership of the token. In addition to the token identification code, the system incorporates a unique product identification code that includes supplementary information beyond the token identification code. This additional information may include product details, ownership records, or other relevant data to enhance tracking and security. The system ensures that the token remains securely linked to its associated product, preventing unauthorized transfers or modifications. The process involves generating, storing, and verifying these codes to maintain the integrity of the token-product relationship. This approach improves security, traceability, and accountability in asset management and supply chain tracking.
12. The process of claim 1 , further comprising the digital security system using the unique token identification code to determine a token number for the locked token being purchased and sending the token number for the token being purchased to the point-of-sale terminal at which the locked token is being purchased.
This invention relates to digital security systems for managing and authenticating tokens, particularly in retail or transaction environments. The system addresses the challenge of securely tracking and verifying tokens, such as gift cards or digital tokens, during purchase transactions to prevent fraud or unauthorized use. The process involves a digital security system that generates and assigns a unique token identification code to each token. When a locked token is being purchased at a point-of-sale terminal, the system uses the unique token identification code to determine a specific token number for the token being purchased. This token number is then sent to the point-of-sale terminal, enabling the terminal to process the transaction securely. The system ensures that only authorized tokens are activated or used, reducing the risk of counterfeit or unauthorized tokens entering circulation. The digital security system may also include mechanisms for verifying the authenticity of the token before activation, ensuring that the token number corresponds to a legitimate, authorized token. This process enhances security by preventing unauthorized access or duplication of tokens, particularly in high-value or sensitive transactions. The system can be integrated with existing point-of-sale infrastructure, making it adaptable for various retail and digital transaction environments.
13. The process of claim 12 , further comprising the point-of-sale terminal at which the locked token is being purchased printing a receipt for the locked token being purchased, wherein the point-of-sale terminal includes the token number for the locked token being purchased on the receipt.
This invention relates to a system for managing and purchasing locked tokens, particularly in a retail or point-of-sale environment. The problem addressed is the need for a secure and verifiable method of purchasing and tracking locked tokens, ensuring that the transaction details, including the token number, are accurately recorded and provided to the purchaser. The process involves a point-of-sale terminal that facilitates the purchase of a locked token. After the transaction is completed, the terminal generates a receipt that includes the token number of the purchased locked token. This ensures that the purchaser has a physical record of the transaction, including the specific token number, which can be used for verification, redemption, or further processing. The receipt serves as proof of purchase and helps prevent disputes or errors in token identification. The system may also include additional steps, such as generating a unique token number for the locked token, associating the token with a specific product or service, and ensuring that the token is securely stored or transferred to the purchaser. The receipt printing step enhances transparency and accountability in the transaction process, making it easier to track and verify the purchase of locked tokens. This method is particularly useful in scenarios where tokens are used for access control, digital payments, or other secure transactions.
14. A digital security system, comprising: unique token identification code generator circuit configured to generate a unique token identification code for each locked token to be locked; a database configured to store unique token identification codes generated by the unique token identification code generator circuit; a communication circuit configured to receive from a point-of-sale system a unique token identification code for a locked token purchased at the point-of-sale system; a processor configured to activate the locked token purchased at the point of sale system; and the communication circuit configured to send to the point-of-sale system and activation message indicating that the purchased locked token is activated, wherein a consumer upon purchasing the locked token receives an unique activation code corresponding to the locked token, enters the unique activation code, which is hashed by a hash function embedded in the locked product to create a verification hash string, and wherein the verification hash string is compared to an activation hash string and if the verification hash string matches the activation hash string, the locked token is unlocked.
The digital security system is designed to securely activate and unlock digital tokens or products purchased at a point-of-sale system. The system addresses the challenge of preventing unauthorized access to digital tokens by ensuring that only legitimate purchasers can unlock them. The system includes a unique token identification code generator circuit that creates a distinct identification code for each locked token. These codes are stored in a database. A communication circuit receives the unique token identification code from the point-of-sale system when a locked token is purchased. A processor then activates the purchased token. The communication circuit sends an activation message to the point-of-sale system confirming the activation. Upon purchase, the consumer receives a unique activation code corresponding to the locked token. The consumer enters this code, which is hashed by a hash function embedded in the locked product to generate a verification hash string. This verification hash string is compared to an activation hash string stored in the system. If they match, the locked token is unlocked, granting the consumer access. This process ensures secure and verifiable activation of digital tokens.
15. The digital security system of claim 14 , further comprising the processor updating the database to indicate that the purchased locked token has been activated.
A digital security system is designed to manage and secure digital tokens, particularly those used in financial transactions or access control. The system includes a processor that interacts with a database to track the status of digital tokens, including locked tokens that require activation before use. When a locked token is purchased, the processor updates the database to mark the token as activated, enabling its use in subsequent transactions or access operations. This ensures that only authorized and properly purchased tokens are active in the system, enhancing security and preventing unauthorized use. The system may also include additional features such as token generation, distribution, and validation mechanisms to further secure the digital tokens throughout their lifecycle. By maintaining an up-to-date record of token statuses, the system provides a reliable and tamper-resistant method for managing digital assets.
16. The digital security system of claim 14 , further comprising the processor checking a status of a locked token corresponding to a received unique token identification code to determine whether the locked token corresponding to the received unique token identification code has previously been activated.
A digital security system is designed to enhance authentication and access control by managing token-based security measures. The system includes a processor that verifies the status of a locked token associated with a received unique token identification code. The processor checks whether the token has been previously activated, ensuring that only authorized and properly activated tokens are permitted to proceed with further authentication steps. This feature prevents unauthorized access by validating the token's activation state before allowing any further operations. The system may also include additional security measures, such as generating and distributing unique token identification codes, encrypting communication between tokens and the system, and maintaining a database of activated tokens to cross-reference against incoming requests. The processor's ability to verify token activation status ensures that only legitimate tokens can interact with the system, reducing the risk of fraudulent or unauthorized access. This approach is particularly useful in environments requiring high-security authentication, such as financial transactions, secure data access, or restricted physical entry systems.
17. The digital security system of claim 14 , wherein the unique token identification code for a given locked token to be secured comprises a numeric, alphanumeric, or ASCII string that uniquely identifies its corresponding locked token.
A digital security system is designed to protect locked tokens, such as hardware security modules (HSMs) or cryptographic devices, from unauthorized access or tampering. The system ensures secure storage and management of sensitive cryptographic keys and data. A key challenge in such systems is ensuring that each locked token can be uniquely identified and authenticated to prevent unauthorized use or duplication. The system includes a unique token identification code assigned to each locked token. This code is a numeric, alphanumeric, or ASCII string that serves as a distinct identifier for the corresponding locked token. The identification code allows the system to verify the authenticity and integrity of the token during operations such as key generation, encryption, or decryption. By using a unique identifier, the system prevents unauthorized tokens from being used in place of legitimate ones, enhancing security. The identification code may be stored securely within the token or managed by a central authority to ensure traceability and prevent tampering. This approach strengthens the overall security of the digital security system by ensuring that only authorized tokens can participate in cryptographic operations.
18. The digital security system of claim 14 , wherein the unique token identification code for a given token is inscribed upon or otherwise affixed to its corresponding locked token in a machine-readable form.
A digital security system is designed to enhance the tracking and authentication of physical tokens, such as keys or access devices, in environments where security and accountability are critical. The system addresses the challenge of verifying the authenticity and integrity of tokens, ensuring that only authorized tokens can be used within a secure environment. Each token is assigned a unique token identification code, which is inscribed or affixed to the token in a machine-readable format. This allows automated systems to read and verify the token's identity, preventing unauthorized access or tampering. The machine-readable form may include barcodes, QR codes, RFID tags, or other encoding methods that enable quick and accurate identification. By embedding the identification code directly on the token, the system ensures that the token's identity cannot be easily altered or forged, enhancing overall security. The system may also include mechanisms to validate the token's status, such as whether it is active, expired, or revoked, further strengthening security protocols. This approach is particularly useful in high-security applications where token authentication must be both reliable and tamper-resistant.
19. The digital security system of claim 14 , further comprising the processor verifying that the locked token corresponding to the received unique token identification code has not been previously activated prior to activating that locked token.
A digital security system is designed to enhance the security of token-based authentication by preventing unauthorized or duplicate activations. The system includes a processor that manages locked tokens, each associated with a unique token identification code. When a user attempts to activate a token, the processor verifies that the corresponding locked token has not been previously activated. This verification step ensures that only legitimate activations occur, preventing fraudulent or duplicate activations. The system may also include a database to store activation statuses and a communication interface to receive activation requests. The processor activates the token only if the verification confirms it has not been previously activated, thereby maintaining the integrity of the security system. This approach is particularly useful in environments where token-based authentication is critical, such as financial transactions, secure access systems, or digital identity verification. The system's ability to detect and block unauthorized activations enhances overall security and reduces the risk of fraud.
20. The digital security system of claim 14 , further comprising a point-of-sale system comprising a processor configured to obtain the unique token identification code from the locked token being purchased and to send the unique token identification code obtained from the locked token being purchased to the digital security system for activation of the locked token being purchased.
A digital security system includes a point-of-sale system for activating locked tokens during purchase. The system addresses the need for secure token activation in retail environments, ensuring that tokens are only activated upon legitimate purchase. The point-of-sale system includes a processor that retrieves a unique token identification code from a locked token being purchased. This code is then transmitted to the digital security system, which processes the activation request. The system ensures that tokens remain inactive until verified and authorized, preventing unauthorized use. The point-of-sale integration streamlines the activation process while maintaining security. The digital security system may also include token locking mechanisms, activation protocols, and secure communication channels to prevent tampering or fraud. The overall solution enhances security in token-based transactions by ensuring tokens are only activated after purchase verification.
21. The digital security system of claim 20 , wherein the processor for the point-of-sale system is further configured to validate payment for the procured locked token before sending the unique token identification scan code corresponding to that locked token to the digital security system for activation.
A digital security system for managing and activating locked tokens, such as digital certificates or access credentials, ensures secure transactions at point-of-sale (POS) systems. The system addresses the problem of unauthorized activation or misuse of tokens by requiring payment validation before activation. The POS system includes a processor that verifies payment for a procured locked token before transmitting a unique token identification scan code to the digital security system for activation. This ensures that only paid tokens are activated, preventing fraudulent or unauthorized access. The system may also include a token database to store token information and a communication interface to exchange data with external systems. The processor handles token requests, payment validation, and activation commands, while the digital security system manages token status and activation processes. This approach enhances security by linking payment validation directly to token activation, reducing the risk of unauthorized use. The system is particularly useful in environments where digital tokens are used for access control, authentication, or secure transactions.
22. The digital security system of claim 14 , wherein the unique token identification code for a given locked token is inscribed upon or otherwise affixed to its corresponding locked token in a human-readable form.
The digital security system involves a method for securely managing and authenticating tokens, particularly in environments where physical access control is required. The system addresses the challenge of ensuring that only authorized individuals can access or use specific tokens, such as hardware security modules, cryptographic keys, or other sensitive assets. A key feature of the system is the use of unique token identification codes assigned to each locked token. These codes are inscribed or affixed to the corresponding locked token in a human-readable form, allowing for easy visual verification and manual entry when necessary. The system may also include mechanisms for generating, storing, and validating these identification codes to prevent unauthorized access or tampering. The human-readable format ensures that users can quickly identify and authenticate tokens without relying solely on electronic systems, enhancing security and usability in scenarios where digital verification may be unavailable or impractical. The system may further integrate with other security protocols, such as biometric authentication or multi-factor verification, to provide a comprehensive access control solution.
23. The digital security system of claim 22 , wherein the unique token identification code is read by an operator at the point-of-sale and manually entered into the point-of-sale system so that it can be transmitted to the digital security system to activate the corresponding locked token.
A digital security system is designed to prevent unauthorized use of tokens, such as gift cards or prepaid vouchers, by locking them until activation. The system includes a unique token identification code assigned to each token, which must be activated before the token can be used. In this system, an operator at a point-of-sale (POS) reads the unique token identification code and manually enters it into the POS system. The POS system then transmits this code to the digital security system, which verifies and activates the corresponding locked token. This activation process ensures that only authorized tokens are available for use, reducing fraud and unauthorized access. The system may also include additional security measures, such as encryption or authentication protocols, to further protect the tokens and the activation process. The manual entry of the token identification code provides a simple yet effective method for activation, ensuring that only authorized personnel can unlock the tokens. This approach enhances security while maintaining usability for both operators and end-users.
24. The digital security system of claim 14 , further comprising the processor using the unique token identification code to determine a token number for the locked token being purchased and sending the token number for the locked token being purchased to the point-of-sale terminal at which the locked token is being purchased.
This invention relates to digital security systems for managing and authenticating tokens, particularly in retail or transactional environments. The system addresses the challenge of securely tracking and verifying tokens during purchase transactions, ensuring that each token is uniquely identifiable and properly authenticated before being sold. The system includes a processor that generates or retrieves a unique token identification code for each locked token. When a locked token is being purchased at a point-of-sale terminal, the processor uses this unique identification code to determine a corresponding token number for the specific locked token. The processor then sends this token number to the point-of-sale terminal, allowing the terminal to confirm the token's authenticity and complete the transaction securely. This ensures that only authorized and properly tracked tokens are sold, preventing fraud or unauthorized use. The system may also include additional features, such as encrypting the token identification code or token number to enhance security. The processor may also validate the token's status (e.g., whether it is locked or unlocked) before sending the token number to the point-of-sale terminal. This ensures that only valid tokens are processed, further strengthening the security of the transaction. The system is particularly useful in environments where tokens are used for access control, digital payments, or other secure applications.
25. The digital security system of claim 24 , further comprising the point-of-sale terminal at which the locked token is being purchased printing a receipt for the token being purchased, wherein the point-of-sale terminal includes the token number for the locked token being purchased on the receipt.
A digital security system is designed to enhance the security of token-based transactions, particularly in retail environments where tokens are purchased at point-of-sale terminals. The system addresses the problem of unauthorized use or duplication of tokens by ensuring that each token is uniquely identifiable and securely managed. The system includes a locked token, which is a physical or digital token that is initially in a locked state, preventing its use until activated. The token is associated with a unique token number that serves as an identifier. When a user purchases the locked token at a point-of-sale terminal, the system generates a receipt that includes the token number for the purchased token. This receipt serves as proof of purchase and helps verify the token's authenticity. The inclusion of the token number on the receipt allows for tracking and validation of the token throughout its lifecycle, reducing the risk of fraud or misuse. The system may also include additional security measures, such as encryption or authentication protocols, to further protect the token and its associated data. By integrating the token number into the receipt, the system provides a clear and verifiable record of the transaction, enhancing security and trust in token-based transactions.
26. A process for providing security to a token, the process comprising: a digital security system generating a unique token identification code for each device to be locked, wherein the unique token identification code uniquely identifies its corresponding locked token but does not include a token number required to conduct transactions using the locked token; the digital security system storing in a security system database the unique token identification code and token number for each locked token; for a locked token being purchased, a point-of-sale system obtaining the unique token identification code from the locked token being purchased and sending the unique token identification code obtained from the locked token being purchased to the digital security system for activation of the locked token being purchased; and the digital security system receiving the unique token identification code sent from the point-of-sale system, retrieving the token number corresponding to the locked token being purchased and sending the retrieved token number to the purchaser of the locked token being purchased, wherein a consumer upon purchasing the locked token receives a unique activation code corresponding to the locked token, enters the unique activation code, which is hashed by a hash function embedded in the locked product to create a verification hash string, and wherein the verification hash string is compared to an activation hash string and if the verification hash string matches the activation hash string, the locked token is unlocked.
This invention relates to a security process for tokens, such as prepaid cards or digital tokens, to prevent unauthorized use before purchase. The system generates a unique token identification code for each locked token, which uniquely identifies the token but does not include the actual token number required for transactions. The digital security system stores both the unique identification code and the token number in a secure database. When a locked token is purchased, the point-of-sale system reads the unique identification code from the token and sends it to the digital security system for activation. The system then retrieves the corresponding token number and provides it to the purchaser. Upon purchase, the consumer receives a unique activation code, which is entered into the locked token. The token contains an embedded hash function that processes the activation code to generate a verification hash string. This string is compared to a pre-stored activation hash string. If they match, the token is unlocked and becomes usable. This method ensures that tokens remain inactive until properly purchased and activated, enhancing security against unauthorized use.
27. The process of claim 26 , wherein sending the retrieved token number to the purchaser of the locked token being purchased comprises sending the retrieved token number to the point-of-sale terminal at which the locked token is being purchased.
This invention relates to a system for securely transferring token numbers, such as cryptographic or digital asset tokens, during a purchase transaction. The problem addressed is ensuring secure and accurate delivery of token identifiers to the purchaser, particularly in scenarios where tokens are locked or restricted until purchase completion. The process involves retrieving a token number associated with a locked token being purchased and sending this number to the purchaser. Specifically, the token number is transmitted to the point-of-sale (POS) terminal where the transaction is occurring. This ensures the purchaser receives the correct token identifier at the exact location of the transaction, reducing errors and enhancing security. The system may also include steps for generating or assigning token numbers, verifying token status, and confirming transaction completion before releasing the token number. The invention is particularly useful in environments where tokens are pre-locked or reserved for purchase, such as digital asset exchanges, retail systems, or secure financial transactions. By integrating token number delivery directly into the POS terminal, the system streamlines the purchase process while maintaining data integrity and preventing unauthorized access. The method may also include additional security measures, such as encryption or authentication, to further protect the token number during transmission.
28. The process of claim 26 , further comprising the digital security system sending the retrieved token number to an issuer of the token being purchased to activate the locked token.
This invention relates to digital security systems for token activation in financial or cryptographic transactions. The problem addressed is the secure and efficient activation of digital tokens, such as cryptocurrencies or digital assets, after purchase. The system ensures that tokens remain locked until verified and activated by an authorized issuer, preventing unauthorized use or fraud. The process involves a digital security system that retrieves a token number associated with a purchased token. The system then sends this token number to the issuer of the token to activate the locked token. This activation step ensures that the token is only made usable after proper verification by the issuer, enhancing security. The system may also include steps for generating a unique token number, associating it with a user account, and storing it in a secure database. The activation request may be triggered by a user or an automated system upon completion of a purchase transaction. The issuer verifies the request and activates the token, making it available for use in transactions or transfers. This method ensures that only legitimate purchases result in active, usable tokens, reducing the risk of fraud or unauthorized access.
29. The process of claim 26 , wherein point-of-sale system comprises a retail check-out system.
A retail check-out system is a point-of-sale (POS) system designed to facilitate transactions at retail locations. These systems typically include hardware components such as cash registers, barcode scanners, payment terminals, and software applications that process sales, manage inventory, and generate receipts. The primary function of a retail check-out system is to streamline the purchasing process by automating payment processing, applying discounts, and updating inventory levels in real time. Additionally, these systems may integrate with customer loyalty programs, payment gateways, and accounting software to enhance operational efficiency and data management. Retail check-out systems are widely used in various retail environments, including supermarkets, department stores, and convenience stores, to improve transaction speed and accuracy while reducing manual errors. The integration of advanced features such as touchscreen interfaces, mobile payment options, and cloud-based data storage further enhances the functionality and user experience of these systems.
30. The process of claim 26 , wherein point-of-sale system comprises an app installed on the purchaser's device and wherein the point-of-sale system obtaining the unique token identification code from the locked token being purchased comprises the user scanning the unique token identification number with the device or entering the unique token identification number using a GUI on the device.
This invention relates to a point-of-sale (POS) system for purchasing and activating digital tokens, such as gift cards or loyalty tokens, using a mobile device. The system addresses the problem of securely transferring and activating digital tokens at the point of sale, ensuring that the token is properly linked to the purchaser's account and ready for use. The POS system includes an application installed on the purchaser's device, which facilitates the purchase and activation process. When a purchaser acquires a locked token, the system retrieves a unique token identification code associated with that token. This retrieval can be done by scanning the token's identification number using the device's camera or by manually entering the number through a graphical user interface (GUI) on the device. Once the identification code is obtained, the system processes the transaction, unlocks the token, and associates it with the purchaser's account, making it ready for use in transactions or redemption. The system ensures secure and efficient token activation, reducing the need for physical tokens and streamlining the purchase process. The use of a mobile app and scanning or manual entry methods provides flexibility and convenience for users, while maintaining the integrity of the token's unique identification.
31. The process of claim 30 , wherein sending the retrieved token number to the purchaser of the locked token being purchased comprises sending the token number to the purchaser's device.
This invention relates to a system for securely transferring digital tokens, particularly in scenarios where tokens are locked and require verification before transfer. The problem addressed is ensuring secure and authenticated delivery of token information to the rightful purchaser, preventing unauthorized access or interception during the transfer process. The process involves retrieving a token number associated with a locked token that has been purchased. The token is initially in a locked state, meaning it cannot be used or transferred until certain conditions are met. Once the purchase is verified, the system sends the retrieved token number directly to the purchaser's device. This ensures that only the authorized purchaser receives the token, reducing the risk of interception or misuse. The purchaser's device may be a smartphone, computer, or other electronic device capable of receiving and securely storing the token number. The system may also include additional security measures, such as encryption, authentication protocols, or multi-factor verification, to further protect the token during transfer. The token itself could represent a digital asset, cryptocurrency, or access credential, depending on the application. By sending the token number directly to the purchaser's device, the system ensures a seamless and secure handover of ownership or control.
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March 22, 2019
March 29, 2022
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